A generator set with improved output efficiency

Abstract

The present invention discloses a generator set with improved output efficiency, belonging to the field of generators. It comprises: an energy recovery support for accommodating a purification liquid; an exhaust gas relay absorption component, the exhaust gas relay absorption component including an exhaust gas relay booster and a kinetic energy recovery component, the exhaust gas relay booster on the diesel generator set directs the exhaust gas discharged into the purification liquid in the energy recovery support, and the purification liquid purifies and absorbs heat and cools the exhaust gas, and the kinetic energy recovery component is pushed on the energy recovery support to perform work; a generator set circulating cooling and utilization component, which delivers liquid cooling liquid to the connected diesel generator set, and continues to guide the liquid cooling liquid after absorbing heat and heating to the connected energy recovery support, and the liquid cooling liquid after absorbing heat and heating is further heated by the purification liquid and then discharged for use. The present invention has a good cooling effect on the diesel generator set, high exhaust gas purification efficiency, and high energy utilization rate, and can significantly increase the output efficiency of the diesel generator set.

Description

Technical Field

[0001] The present invention relates to the technical field of generators, and more particularly, to a generator set with improved output efficiency. Background Art

[0002] A diesel generator is a power machine that uses diesel fuel, a type of fuel, as its prime mover, and a diesel engine to drive the generator. The complete unit typically consists of a diesel engine, generator, control box, fuel tank, starting and control batteries, protective devices, an emergency cabinet, and other components. It can be used for daily power generation and emergency power generation in offices, large, medium, and small businesses. A diesel generator combines a diesel engine with a generator (usually an AC generator) to generate electricity.

[0003] Diesel generators produce exhaust gas during use, which includes more than 200 kinds of harmful gases and solid emissions. The exhaust gas volume is large. Generally, the exhaust gas emissions of an 800kw unit are about 11,000m 3 / h, 3000kw unit about 50,000m 3 The exhaust gas temperature is generally as high as 500°C. Direct emission of high-temperature exhaust gas will pollute the surrounding environment. Direct emission of high-temperature exhaust gas is also a waste of energy, resulting in a reduction in the overall output efficiency of the diesel generator set. At the same time, the existing method of directly emitting high-temperature exhaust gas from diesel generators also reduces the applicability of diesel generator sets, such as for use in tunnels. Existing diesel generator set smoke elimination and cooling processes mainly include spray cooling and heat dissipation methods. This method is characterized by recycling a large amount of cooling water to spray and cool the high-temperature flue gas to an appropriate temperature. The cooling water absorbs some of the harmful gases and solid particulate emissions in the exhaust gas. The hot water that has purified the exhaust gas and absorbed the heat of the exhaust gas is transported for use. After the hot water is cooled, it is reused. The purified exhaust gas is discharged through a pipeline. Through the heat exchange between the cooling water and the exhaust gas, a large amount of heat energy is absorbed and utilized. However, this process can cause pollution of the recycled cooling water. The use of contaminated hot water poses a safety hazard and increases the corrosion of the pipeline network. In addition, the equipment for this process is too large, which is not conducive to the rational use of space. Summary of the Invention

[0004] In order to overcome the above-mentioned drawbacks, the present invention provides a generator set with improved output efficiency, which specifically adopts the following technical solutions:

[0005] A generator set with improved output efficiency, comprising:

[0006] An energy recovery support member is provided on the ground next to the diesel generator set and is used to accommodate the purification liquid;

[0007] an exhaust gas relay absorption component, which is arranged on the diesel generator set and the energy recovery support component, and includes an exhaust gas relay booster component and a kinetic energy recovery component. The exhaust gas relay booster component guides the exhaust gas discharged from the diesel generator set into the purification liquid in the energy recovery support component, and the exhaust gas is purified and heat-absorbed and cooled by the purification liquid. The kinetic energy recovery component is pushed on the energy recovery support component to perform work;

[0008] The generator set circulating cooling and utilization component transports liquid cooling liquid to the connected diesel generator set, and continues to guide the liquid cooling liquid after absorbing heat and heating to the connected energy recovery support component. The liquid cooling liquid after absorbing heat and heating is further heated by the purification liquid and then discharged for use.

[0009] Preferably, the energy recovery support member includes a bottom support seat, an auxiliary generator and a recovery support member, the bottom support seat is arranged on the ground to provide support, the auxiliary generator is installed in the bottom support seat, and the recovery support member is arranged on the bottom support seat.

[0010] Preferably, the recovery support member includes a relay support seat and an energy recovery support box, the relay support seat is arranged on the bottom support seat, the energy recovery support box is arranged on the relay support seat, and the energy recovery support box contains the purification liquid.

[0011] Preferably, the exhaust gas relay booster includes an exhaust gas relay and an exhaust gas booster. The exhaust gas relay is connected to the diesel generator set to divert the exhaust gas into the purification liquid. The exhaust gas booster increases the wind pressure of the exhaust gas entering the purification liquid on the exhaust gas relay.

[0012] Preferably, the exhaust gas relay absorption component further includes an exhaust gas release component, and the exhaust gas release component uniformly transports the exhaust gas into the purification liquid on the exhaust gas relay component.

[0013] Preferably, the kinetic energy recovery component includes a kinetic energy recovery transmission support component, a first kinetic energy recovery power component and a second kinetic energy recovery power component. The kinetic energy recovery transmission support component is rotatably arranged on the energy recovery support box, and the first kinetic energy recovery power component and the second kinetic energy recovery power component are both fixedly arranged on the kinetic energy recovery transmission support component and pushed by the exhaust gas.

[0014] Preferably, the kinetic energy recovery transmission support member includes a kinetic energy recovery shaft, one end of which rotates through the energy recovery support box, the relay support seat and the bottom support seat in succession and is connected to the rotor shaft of the auxiliary generator to transmit power to the auxiliary generator; and the kinetic energy recovery shaft is connected to the relay support seat through the first relay through hole on the side wall.

[0015] Preferably, the generator set circulating cooling and utilization component includes a diesel generator set cooling component, an auxiliary generator set cooling component and a heat absorption and discharge component. The diesel generator set cooling component transports the liquid cooling liquid to the connected diesel generator set. The auxiliary generator set cooling component is on the diesel generator set and the energy recovery component, and guides the liquid cooling liquid after absorbing the heat of the diesel generator set to the relay support seat.

[0016] Preferably, the diesel generator set cooling component includes a generator cooling mounting seat and an infusion cooling component. The generator cooling mounting seat is mounted on the generator of the diesel generator set for liquid cooling, and the infusion cooling component delivers the liquid cooling liquid to the connected diesel generator set for cooling.

[0017] Preferably, the heat absorption discharge member includes a heat absorption relay member and a heat absorption circulation discharge member. The heat absorption relay member is rotatably connected to the kinetic energy recovery shaft, and the heat absorption circulation discharge member is connected to the heat absorption relay member in the energy recovery support box. The liquid cooling liquid is continued to be heated and heated by the purification liquid, and the further heated liquid cooling liquid is discharged for use.

[0018] The present invention has at least the following beneficial effects:

[0019] 1) The generator set with improved output efficiency of the present invention has a good cooling effect on the diesel generator set, high exhaust gas purification efficiency, high energy utilization rate, and can significantly increase the output efficiency of the diesel generator set;

[0020] 2) The generator set for improving output efficiency of the present invention is provided with an energy recovery component, a recovery support component, an exhaust gas relay absorption component and a generator set circulating cooling and utilization component. The exhaust gas relay absorption component guides the exhaust gas into the recovery support component. The purification liquid in the recovery support component can absorb the heat in the exhaust gas while purifying the exhaust gas. The purification liquid after absorbing heat and heating can improve the purification efficiency of the exhaust gas, and the exhaust gas provides power for the energy recovery component to generate electricity during the purification process of the purification liquid; the generator set circulating cooling and utilization component inputs the liquid cooling liquid into the diesel generator set to absorb heat and heat it, and transports the liquid cooling liquid after absorbing heat and heating it to the heated purification liquid to continue heating it, and then discharges it for use, which significantly increases the cooling efficiency and exhaust gas purification efficiency of the diesel generator set, and significantly improves the energy utilization rate and output efficiency of the diesel generator set.

[0021] Other advantages, objectives and features of the present invention will be reflected in part from the following description and will be understood by those skilled in the art through study and practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a schematic diagram of the left side three-dimensional structure of the generator set for improving output efficiency according to the present invention;

[0023] Figure 2 A schematic diagram of the right side three-dimensional structure of a generator set for improving output efficiency according to the present invention;

[0024] Figure 3 A schematic diagram of the three-dimensional structure of the connection relationship between the energy recovery support component, the exhaust gas relay absorption component and the generator set circulation cooling utilization component in the generator set for improving the output efficiency of the present invention;

[0025] Figure 4 A schematic diagram of the right side of the vertical cross-section showing the connection relationship between the energy recovery support member, the exhaust gas relay absorption member and the circulating cooling utilization member of the generator set for improving the output efficiency of the present invention;

[0026] Figure 5 A schematic diagram of the left side of the longitudinal section showing the connection relationship between the energy recovery support member, the exhaust gas relay absorption member and the circulating cooling utilization member of the generator set for improving the output efficiency of the present invention;

[0027] Figure 6 A schematic diagram of the three-dimensional structure of a crushing pad in a generator set for improving output efficiency according to the present invention;

[0028] Figure 7 A schematic diagram of the three-dimensional structure of a generator cooling mounting base in a generator set for improving output efficiency according to the present invention;

[0029] Figure 8 This is a schematic diagram of the longitudinal cross-sectional three-dimensional structure of a generator cooling mounting base in a generator set for improving output efficiency according to the present invention.

[0030] Among them: 1- bottom support base, 2- auxiliary generator, 3- relay support base, 4- energy recovery support box, 5- reducer, 6- first exhaust gas relay pipe, 7- second exhaust gas relay pipe, 8- third exhaust gas relay pipe, 9- diesel generator set, 10- duct fan, 11- exhaust gas release relay pipe, 12- exhaust gas nozzle, 13- crushing pad, 14- cone, 15- kinetic energy recovery shaft, 16- support pad, 17- first mounting base, 18- blade, 19- second mounting base, 20- fan blade, 21- generator cooling mounting base, 22- first liquid cooling hole, 23- mounting leg, 24- relay main pipe, 25- third liquid cooling hole, 26- relay rotating sleeve, 27- heat absorption relay pipe, 28- heat absorption pipe, 29- discharge pipe. DETAILED DESCRIPTION

[0031] The technical solutions of the present invention will be described in detail below by way of embodiments with reference to the accompanying drawings. It should be noted that the description of these embodiments is used to help understand the present invention, but does not constitute a limitation of the present invention.

[0032] The term "and / or" in this article is only a description of the association relationship of associated objects, indicating that three relationships can exist. For example, A and / or B can mean: A exists alone, B exists alone, and A and B exist at the same time. The term " / and" in this article describes another type of association object relationship, indicating that two relationships can exist. For example, A / and B can mean: A exists alone, and A and B exist alone. In addition, the character " / " in this article generally indicates that the previous and subsequent associated objects are in an "or" relationship.

[0033] according to Figures 1-8 As shown, a generator set with improved output efficiency includes an energy recovery support, an exhaust gas relay absorption component and a generator set circulation cooling utilization component. The energy recovery support component is arranged on the ground next to the diesel generator set 9, the exhaust gas relay absorption component is arranged on the diesel generator set 9 and the energy recovery support component, and the generator set circulation cooling utilization component is arranged on the diesel generator set 9 and the energy recovery support component.

[0034] The energy recovery support member includes an energy recovery member and a recovery support member, the energy recovery member is arranged on the ground, and the recovery support member is arranged on the energy recovery member. The energy recovery member includes a bottom support seat 1 and an auxiliary generator 2, the bottom support seat 1 is in the shape of a circular tube, and both end faces of the bottom support seat 1 are closed. One end face of the bottom support seat 1 is horizontally fixed on the ground to provide support for the recovery support member. The auxiliary generator 2 is installed in the bottom support seat 1, and the axis of the auxiliary generator 2 coincides with the axis of the bottom support seat 1.

[0035] The recovery support member includes a relay support seat 3 and an energy recovery support box 4. The relay support seat 3 is tubular, and both end faces of the relay support seat 3 are closed. One end face of the relay support seat 3 is horizontally fixed on the other end face of the bottom support seat 1. The energy recovery support box 4 is tubular, and one end face of the energy recovery support box 4 is closed. One end of the energy recovery support box 4 is horizontally fixed on the other end face of the relay support seat 3. The other end of the energy recovery support box 4 is connected with a reducer 5 to facilitate the discharge of the purified and cooled exhaust gas. Furthermore, a fluid infusion tube is connected to the energy recovery support box 4, and the fluid infusion tube is used to input purification liquid into the energy recovery support box 4. The purification liquid is used to absorb harmful substances and exhaust gas particles in the exhaust gas, and absorb the temperature in the exhaust gas.

[0036] The exhaust gas relay absorption component includes an exhaust gas relay boost component, an exhaust gas release component and a kinetic energy recovery component. The exhaust gas relay boost component is arranged on the diesel generator set 9 and the energy recovery support component, the exhaust gas release component is arranged on the exhaust gas relay boost component, and the kinetic energy recovery component is arranged on the energy recovery support component.

[0037] The exhaust gas relay booster includes an exhaust gas relay and an exhaust gas booster. The exhaust gas relay is arranged on the diesel generator set 9 and the energy recovery support, and the exhaust gas booster is arranged on the exhaust gas relay. The exhaust gas relay includes a first exhaust gas relay pipe 6, a second exhaust gas relay pipe 7 and a third exhaust gas relay pipe 8. One end of the first exhaust gas relay pipe 6 passes through the protective shell of the diesel generator set 9 and is connected to the diesel engine exhaust port of the diesel generator set 9. One end of the second exhaust gas relay pipe 7 is flange-connected to the other end of the first exhaust gas relay pipe 6. One end of the third exhaust gas relay pipe 8 passes through the side wall of one end of the energy recovery support box 4 and extends into the energy recovery support box 4. The third exhaust gas relay pipe 8 is connected to the second exhaust gas relay pipe 7 through the exhaust booster. The exhaust gas booster includes a duct fan 10, the inlet end of which is connected to the other end of the second exhaust gas relay pipe 7, and the outlet end of which is connected to the other end of the third exhaust gas relay pipe 8. It should be noted that, as an option, the height of the duct fan 10 is preferably greater than the level of the purified liquid in the energy recovery support box 4 to prevent the purified liquid from flowing back to the duct fan 10 through the third exhaust gas relay pipe 8 when the diesel generator set 9 is not in use; or, as needed, a gate valve can be installed on the third exhaust gas relay pipe 8 to prevent the purified liquid from flowing to the duct fan 10 when the diesel generator set 9 is not in use, such as during maintenance.

[0038] The exhaust gas release component includes an exhaust gas release relay pipe 11, an exhaust gas nozzle 12 and a crushing pad 13. The exhaust gas release relay pipe 11 is an annular tube. The exhaust gas release relay pipe 11 is horizontally arranged on the other end of the third exhaust gas relay pipe 8, and the axis of the exhaust gas release relay pipe 11 coincides with the axis of the energy recovery support box 4. Furthermore, there are two exhaust gas release relay pipes 11, and the two exhaust gas release relay pipes 11 have different radii. The two exhaust gas release relay pipes 11 are evenly distributed along the same axis. One end of the exhaust gas nozzle 12 vertically penetrates the lower side wall of the exhaust gas release relay pipe 11, so that the other end of the exhaust gas nozzle 12 sprays the exhaust gas toward one end face of the energy recovery support box 4. Multiple exhaust gas nozzles 12 are evenly distributed on the exhaust gas release relay pipe 11. The pulverizing pad 13 is in the shape of a circular plate, with one end face of the pulverizing pad 13 horizontally fixedly mounted on one end face of the energy recovery support box 4, and the axis of the pulverizing pad 13 coincides with the axis of the energy recovery support box 4. A plurality of frustums 14 are distributed on the other end face of the pulverizing pad 13, and the frustums 14 are evenly distributed on the other end face of the pulverizing pad 13. When the exhaust gas is sprayed from the exhaust gas nozzle 12 toward the frustums 14 of the pulverizing pad 13, it will rapidly decompose to form small-diameter exhaust gas bubbles. The small-diameter exhaust gas bubbles float in the purified liquid, increasing the contact area between the exhaust gas and the purified liquid, thereby improving the exhaust gas purification efficiency and heat conduction efficiency.

[0039] The kinetic energy recovery component includes a kinetic energy recovery transmission support component, a first kinetic energy recovery power component and a second kinetic energy recovery power component. The kinetic energy recovery transmission support component is arranged on the energy recovery support box 4. The first kinetic energy recovery power component and the second kinetic energy recovery power component are both arranged on the kinetic energy recovery transmission support component. The kinetic energy recovery transmission support component includes a kinetic energy recovery shaft 15, a support pad 16 and a thrust ball bearing. The kinetic energy recovery shaft 15 is tubular. Both end faces of the kinetic energy recovery shaft 15 are closed. One end of the kinetic energy recovery shaft 15 rotates through one end face of the energy recovery support box 4, the two end faces of the relay support seat 3 and the other end face of the bottom support seat 1, and is connected to one end of the rotor shaft of the auxiliary generator 2 to transmit power to the auxiliary generator 2. A first relay through-hole is provided on the side wall of one end of the kinetic energy recovery shaft 15. The kinetic energy recovery shaft 15 is connected to the relay support seat 3 through the first relay through-hole. The support pad 16 is in the shape of a circular plate, and the support pad 16 is fixed horizontally and sleeved on the kinetic energy recovery shaft 15. After the thrust ball bearing is sleeved on the kinetic energy recovery shaft 15, one end face of the thrust ball bearing is connected to the bottom surface of the support pad 16, and the other end face of the thrust ball bearing is connected to the inner side surface of one end face of the relay support seat 3 to improve the support stability of the kinetic energy recovery shaft 15.

[0040] The first kinetic energy recovery power component includes a first mounting seat 17 and a paddle 18. The first mounting seat 17 is tubular and fixedly mounted on the kinetic energy recovery shaft 15. The bottom end of the paddle 18 is horizontally fixed to the side wall of the first mounting seat 17. Furthermore, four paddles 18 are provided, evenly distributed circumferentially around the first mounting seat 17. Rising exhaust gas bubbles in the purified liquid will drive the paddles 18 to rotate. The rotating paddles 18 will cut the rising bubbles, further splitting them into multiple smaller diameters, further increasing the contact area between the exhaust gas bubbles and the purified liquid, thereby further improving purification efficiency and heat transfer efficiency. The rotating paddles 18 will drive the kinetic energy recovery shaft 15 to rotate through the first mounting seat 17. The rotating kinetic energy recovery shaft 15 will drive the rotor of the auxiliary generator 2 to rotate and generate electricity, thereby improving energy utilization efficiency. It should be noted that the first kinetic energy recovery power component is located below the surface of the purified liquid.

[0041] The second kinetic energy recovery power component includes a second mounting seat 19 and a fan blade 20. The second mounting seat 19 is in the shape of a circular tube. The second mounting seat 19 is fixedly mounted on the kinetic energy recovery shaft 15. The bottom end of the fan blade 20 is horizontally fixed on the side wall of the second mounting seat 19. Furthermore, there are four fan blades 20, and the four fan blades 20 are evenly distributed around the second mounting seat 19. After the exhaust gas bubbles purified by the purification liquid float up and separate from the purification liquid, they will push the fan blades 20 to rotate. The rotating fan blades 20 drive the kinetic energy recovery shaft 15 to rotate through the second mounting seat 19. The rotating kinetic energy recovery shaft 15 will drive the rotor of the auxiliary generator 2 to rotate and generate electricity, thereby improving energy utilization efficiency. It should be noted that the second kinetic energy recovery power component is located above the liquid level of the purification liquid.

[0042] The generator set circulation cooling and utilization component includes a diesel generator set cooling component, an auxiliary generator set cooling component and a heat absorption and discharge component. The diesel generator set cooling component is arranged on the diesel generator set 9, the auxiliary generator set cooling component is arranged on the energy recovery component, and the heat absorption and discharge component is arranged on the recovery support component.

[0043] The diesel generator set cooling device includes a generator cooling mount and a fluid infusion cooling device. The generator cooling mount is mounted on the generator of the diesel generator set 9, and the fluid infusion cooling device is installed on the diesel generator set 9. The generator cooling mount includes a generator cooling mount 21. The generator cooling mount 21 is in the shape of a circular tube. A first liquid cooling hole 22 is provided in the tube wall of the generator cooling mount 21. The first liquid cooling hole 22 is in the shape of a spiral tube, and the axis of the first liquid cooling hole 22 coincides with the axis of the generator cooling mount 21. The first liquid cooling hole 22 extends through the outer wall of the generator cooling mount 21 at both ends to facilitate connection with an external fluid infusion tube. It should be noted that the generator cooling mount 21 is designed to be mounted on the outside of the generator to transfer heat from the generator. Furthermore, the generator cooling mount 21 is provided with mounting legs 23 to facilitate the secure installation of the generator. The first liquid cooling holes 22 cool and dissipate heat on the generator, thereby reducing the failure rate and maintenance costs of the generator and improving the output efficiency of the generator.

[0044] The infusion cooling component includes an infusion main pipe, a first infusion branch pipe, and a second infusion branch pipe. One end of the infusion main pipe passes through the protective shell, and the other end of the infusion main pipe is connected to the infusion pump. One end of the first infusion branch pipe is connected to the side wall of the other end of the infusion main pipe, and the other end of the first infusion branch pipe is connected to one end of the second liquid cooling hole on the diesel engine of the diesel generator set 9. The second liquid cooling hole is provided on the diesel engine to cool and dissipate heat from the diesel engine, reduce the failure rate and maintenance costs of the diesel engine, and improve its efficiency. One end of the second infusion branch pipe is connected to the side wall of the other end of the infusion main pipe, and the other end of the second infusion branch pipe is connected to one end of the first liquid cooling hole 22. Furthermore, a first flow control valve is provided on the first infusion branch pipe, and a second flow control valve is provided on the second infusion branch pipe.

[0045] The auxiliary generator set cooling device includes a first relay branch pipe, a second relay branch pipe, a relay main pipe, and a relay main pipe 24. One end of the first relay branch pipe is connected to the other end of the second liquid cooling hole, one end of the second relay branch pipe is connected to the other end of the first liquid cooling hole 22, and the other ends of the first relay branch pipe and the second relay branch pipe are both connected to one end of the relay main pipe. The other end of the relay main pipe passes through the bottom support base 1 and is connected to one end of the third liquid cooling hole 25 on the auxiliary generator 2. Furthermore, the third liquid cooling hole 25 is a spiral tube. The third liquid cooling hole 25 is located on the stator of the auxiliary generator 2 and is used to cool and dissipate heat for the auxiliary generator 2. One end of the relay main pipe 24 is connected to the other end of the third liquid cooling hole 25, and the other end of the relay main pipe 24 is connected to the side wall of the relay support base 3. The liquid coolant that has absorbed the heat from the diesel engine, the generator and the auxiliary generator 2 is directed into the relay support seat 3 and then enters the tube of the kinetic energy recovery shaft 15 through the first relay through hole.

[0046] The heat absorption and discharge member includes a heat absorption relay member and a heat absorption cycle discharge member. The heat absorption relay member is arranged on the kinetic energy recovery transmission support member, and the heat absorption cycle discharge member is arranged on the recovery support member. The heat absorption relay member includes a relay rotary sleeve 26 and a heat absorption relay tube 27. The relay rotary sleeve 26 is generally tubular. The relay rotary sleeve 26 is rotatably sleeved on the outer wall of the kinetic energy recovery shaft 15, and a relay groove is provided on the inner wall of the relay rotary sleeve 26 to communicate with the second relay through-hole on the kinetic energy recovery shaft 15. Furthermore, the relay groove is an annular groove, and a rotary sealing ring is provided on the inner wall of the relay rotary sleeve 26 on both sides of the relay groove to improve the rotary sealing between the relay groove and the second relay through-hole. One end of the heat absorption relay tube 27 is connected to the relay rotary sleeve 26, and the heat absorption relay tube 27 is connected to the relay groove.

[0047] The heat absorption circulation discharge member includes a heat absorption pipe 28 and a discharge pipe 29. The heat absorption pipe 28 is a spiral tube and is fixedly embedded in the inner wall of the energy recovery support box 4. One end of the heat absorption pipe 28 is connected to the other end of the heat absorption relay pipe 27. At the same time, the heat absorption pipe 28 is located below the liquid level of the purified liquid to fully absorb the purified liquid temperature to heat the liquid coolant. One end of the discharge pipe 29 is connected to the other end of the heat absorption pipe 28 to discharge the heated liquid coolant for use. The cooled liquid coolant is then circulated through the infusion pump and injected into the diesel generator set 9 for cooling and heat dissipation.

[0048] Although the embodiments of the present invention have been disclosed above, they are not limited to the applications listed in the description and implementation methods. They can be fully applied to various fields suitable for the present invention. For those familiar with the art, additional modifications can be easily implemented. Therefore, without departing from the general concept defined by the claims and the scope of equivalents, the present invention is not limited to the specific details and illustrations shown and described herein.

Claims

1. A generator set with improved output efficiency, characterized in that: include: An energy recovery support member is provided on the ground next to the diesel generator set and is used to accommodate the purification liquid; an exhaust gas relay absorption component, which is arranged on the diesel generator set and the energy recovery support component, and includes an exhaust gas relay booster component and a kinetic energy recovery component. The exhaust gas relay booster component guides the exhaust gas discharged from the diesel generator set into the purification liquid in the energy recovery support component, and the exhaust gas is purified and heat-absorbed and cooled by the purification liquid. The kinetic energy recovery component is pushed on the energy recovery support component to perform work; The generator set circulating cooling and utilizing component delivers liquid cooling liquid to the connected diesel generator set, and further guides the liquid cooling liquid after absorbing heat and heating to the connected energy recovery support component, and the liquid cooling liquid after absorbing heat and heating is further heated by the purification liquid before being discharged for use; The recovery support member includes a relay support seat and an energy recovery support box, the relay support seat is arranged on the bottom support seat of the energy recovery support member, the energy recovery support box is arranged on the relay support seat, and the energy recovery support box contains the purified liquid; the exhaust gas relay booster member includes an exhaust gas relay member and an exhaust gas booster member, the exhaust gas relay member is through-connected to the diesel generator set to guide the exhaust gas to the purified liquid, and the exhaust gas booster member increases the wind pressure of the exhaust gas entering the purified liquid on the exhaust gas relay member; the kinetic energy recovery member includes a kinetic energy recovery transmission support member, a first kinetic energy recovery power member and a second kinetic energy recovery power member, and the kinetic energy recovery transmission support member is rotatably arranged on the energy recovery On the recovery support box, the first kinetic energy recovery power component and the second kinetic energy recovery power component are both fixedly arranged on the kinetic energy recovery transmission support component and pushed by the exhaust gas; the first kinetic energy recovery power component includes a first mounting seat and a paddle, the first mounting seat is fixedly sleeved on the kinetic energy recovery shaft of the kinetic energy recovery transmission support component, and a plurality of the paddles are evenly distributed around the first mounting seat; the first kinetic energy recovery power component is located below the liquid level of the purified liquid; the second kinetic energy recovery power component includes a second mounting seat and a fan blade, the second mounting seat is fixedly sleeved on the kinetic energy recovery shaft, and a plurality of the fan blades are evenly distributed around the second mounting seat; the second kinetic energy recovery power component is located above the liquid level of the purified liquid.

2. The generator set with improved output efficiency according to claim 1, characterized in that: The energy recovery support also includes an auxiliary generator and a recovery support. The bottom support seat is arranged on the ground to provide support. The auxiliary generator is installed in the bottom support seat. The recovery support is arranged on the bottom support seat.

3. The generator set with improved output efficiency according to claim 2, characterized in that: The exhaust gas relay absorption component further includes an exhaust gas release component, and the exhaust gas release component uniformly transports the exhaust gas into the purification liquid on the exhaust gas relay component.

4. The generator set with improved output efficiency according to claim 3, characterized in that: The kinetic energy recovery transmission support member includes a kinetic energy recovery shaft, one end of which rotates through the energy recovery support box, the relay support seat and the bottom support seat in succession and is connected to the rotor shaft of the auxiliary generator to transmit power to the auxiliary generator; and the kinetic energy recovery shaft is connected to the relay support seat through the first relay through hole on the side wall.

5. The generator set with improved output efficiency according to claim 4, characterized in that: The generator set circulating cooling and utilization component includes a diesel generator set cooling component, an auxiliary generator set cooling component and a heat absorption and discharge component. The diesel generator set cooling component transports the liquid cooling liquid to the connected diesel generator set. The auxiliary generator set cooling component is on the diesel generator set and the auxiliary generator, and guides the liquid cooling liquid after absorbing the heat of the diesel generator set to the relay support seat.

6. The generator set with improved output efficiency according to claim 5, characterized in that: The diesel generator set cooling component includes a generator cooling mounting seat and an infusion cooling component. The generator cooling mounting seat is mounted on the generator of the diesel generator set for liquid cooling, and the infusion cooling component delivers the liquid cooling liquid to the connected diesel generator set for cooling.

7. The generator set with improved output efficiency according to claim 6, characterized in that: The heat absorption and discharge member includes a heat absorption relay member and a heat absorption circulation discharge member. The heat absorption relay member is rotatably connected to the kinetic energy recovery shaft. The heat absorption and discharge member is connected to the heat absorption relay member in the energy recovery support box. The liquid cooling liquid is continuously heated and heated by the purified liquid, and the further heated liquid cooling liquid is discharged for use.

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